Kabushiki Kaisha Topcon

Topcon Corporation

Nec Corporation

Tonen Corporation

Fuji Xerox Co., Ltd.

Honda Giken Kogyo Kabushiki Kaisha

Mitsubishi Heavy Industries Limited

Toa Nenryo Kogyo Kabushiki Kaisha

Az Electronic Materials USA Corp.

Renesas Electronics Corporation

The Goodyear & Tire Rubber Company

The University of Tokyo

Ihi Corporation

Doryokuro Kakunenryo Kaihatsu Jigyodan

Hiroyuki Aoki

Tsutomu Kikawa

Atsuhiko Murayama

Yasufumi Fukuma

Seiji Sugahara

Hisashi Tsukada

Takashi Fujimura

Ayumu Yagihashi

Yumi Katou

Tadashi Suzuki

Kenichi Kitatani

Nobuo Kochi

Takeshi Isoda

Yasuo Shimizu

Hitoshi Otani

Yusuke Ono

Yuuji Tashiro

Mitsuharu Yamada

Toshio Katahata

Tadayuki Ito

Osamu Funayama

Mikiro Arai

Takaaki Sakurai

Masami Kizaki

Masahiro Kokubo

Genshiro Nishimura

Yuji Tashiro

Hideki Matsuo

Tomoko Aoki

Takashi Ohbayashi

Haruo Hashimoto

Mutsuo Haino

Fumio Ohtomo

Kenichi Matsunaga

Yasuoki Tomita

Karl Eric Sundkvist

Tatsuo Yamaguchi

Timothy Michael Rooney

Toshifumi Mihashi

Masamoto Ito

Hirokazu Sato

Terry John Waibel

Yoko Hirohara

Masamitsu Kuwabara

Shunsuke Torii

Yukinori Kawaguchi

Yoshiaki Yasuno

Taiki Aimi

Takatsugu Kido

Masahiro Shibutani

Toyohiko Yatagai

Jun Kubota

Hayato Nishii

Hiroshi Kaya

Yasuko Tsuruga

Hitoshi Ohtani

Koki Harumoto

Kiyoshi Sato

Jun Suehiro

Kozaburo Tamura

Ichiro Kohshi

Masaaki Ichiyama

Makoto Araie

Kazuyoshi Hayakawa

Manabu Kinugasa

Takuya Kimura

Toshihide Kishi

Toshihide Nakano

Akiyoshi Kaneko

Toshihiko Kamio

Atsuo Tomidokoro

Shinsuke Konno

Atsushi Tsuru

Tomoyuki Mizushina

Kouji Okuda

Torataro Takemika

Takaaki Shiratori

Takuya Oki

Katsunari Yokota

Jin Osada

Hiroshihi Kaya

Provided are an ophthalmologic device and a method of controlling the same capable of accurately and reliably acquiring ocular characteristics of a subject eye. The ophthalmologic device includes: a face supporting unit configured to support a face of an examinee; an anterior ocular segment image acquiring unit configured to repeatedly acquire an anterior ocular segment image of the subject eye of the face supported by the face supporting unit; a pupil image detecting unit configured to detect a pupil image of the subject eye for each anterior ocular segment image based on the anterior ocular segment image repeatedly acquired by the anterior ocular segment image acquiring unit; and a determining unit configured to determine whether or not the face is properly supported by the face supporting unit based on a result of detection of the pupil image for each anterior ocular segment image by the pupil image detecting unit.

Ophthalmologic device and method for controlling same

An ophthalmologic apparatus of an embodiment example includes a front image acquiring device, a first search processor, and a second search processor. The front image acquiring device is configured to acquire a front image of a fundus of a subject's eye. The first search processor is configured to search for an interested region corresponding to an interested site of the fundus based on a brightness variation in the front image. The second search processor is configured to search for the interested region by template matching between the front image and a template image in the event that the interested region has not been detected by the first search processor.

Ophthalmologic apparatus, and method of controlling the same

An ophthalmological device of some embodiment examples includes a memory, detecting processor, identifying processor, transforming processor, and composing processor. The memory stores a plurality of angiograms acquired by applying optical coherence tomography to an eye fundus. The detecting processor is configured to detect a feature point from each of the angiograms. The identifying processor is configured to identify a plurality of feature point groups from among a plurality of feature points detected from the angiograms. Each feature point group corresponds to a same site of the eye fundus. The transforming processor is configured to transform at least part of the angiograms based on the feature point groups. The composing processor is configured to compose two or more angiograms of the angiograms at least part of which has been transformed, based on the feature point groups.

Ophthalmological device, ophthalmological image processing method, and storage medium

Information processing device () communicates with mobile terminals (-) to (-). Mobile terminals (-) to (-) perform near field communication with each other. Information processing device () decides a condition based on a distance from a first location associated with user information about users who use mobile terminals (-) to (-) to their current location and notifies mobile terminals (-) to (-) whether or not other user identification information that satisfies the decided condition has been stored.

Setting up of condition based on location for a mobile terminal

A display control device () is the display control device () that controls output of display data to a plurality of display units that are arranged on different surfaces of a case, comprising a posture detection unit (), a visibility state determination unit (), and a display data output unit (). The posture detection unit () detects a posture of the case. The visibility state determination unit () determines a display unit that is visually recognizable to the user from among the plurality of display units according to the posture of the case detected by the posture detection unit (). The display data output unit () outputs the display data to the display unit that the visibility state determination unit () determined as visually recognizable to the user.

Display control device, communication terminal, display control method, and computer-readable recording medium on which program is recorded

A securing part structure of a turbine nozzle provided with a plurality of turbine nozzle segments, each having a plurality of stator vanes, arranged annularly around an axis of a jet engine and secured between a turbine case and a shroud of the jet engine, wherein in the turbine nozzle segment, an arc-shaped outer band coupling distal ends of the plurality of stator vanes to each other is provided, a hook of the outer band is engaged with a nozzle support groove of the turbine case from behind, a recessed portion of the outer band is fitted with an anti-rotation tab from behind, and an anti-rotation slot formed in the shroud is fitted with a protruding portion from behind so that the turbine nozzle segment is secured between the turbine case and the shroud. Reduction of performance loss and extension of a life of the turbine case can be realized.

Securing part structure of turbine nozzle and turbine using same

A navigation apparatusincludes a current position information acquisition unit (a self-position acquisition unit) that acquires current position information, and a travel direction determination unit (for example, a route search unit) that determines a travel direction based on the acquired current position information and destination position information. The navigation apparatusfurther includes a sound unit that outputs a sound (for example, a parametric speaker), and a sound control unitthat controls the sound unit so that the sound can be heard to the user from the travel direction.

Navigation apparatus

An ophthalmologic apparatus of an embodiment includes an optical system, a rotational movement amount calculator, a registration unit, a parallel movement amount calculator, a driver, and a controller. The optical system is used to capture a moving image of a subject's eye. The rotational movement amount calculator calculates a rotational movement amount between a first image and a second image included in the moving image. The registration unit performs registration between the first image and the second image in the rotation direction based on the rotational movement amount. The parallel movement amount calculator performs a phase only correlation process on the first image and the second image registered by the registration unit to calculate a parallel movement amount between the first image and the second image. The driver moves the optical system. The controller controls the driver based on the parallel movement amount.

Ophthalmologic apparatus

A control unit () recognizes information that is being displayed in, from among display areas (---) that display information, a first display area and displays relevant information that relates to the information that was recognized in a second display area other than the first display area.

Display device

There are provided an oscillation device that outputs a sound wave; a recognition unit that recognizes a direction in which sound output targets (), for which a sound is to be output, are located; a selection unit that selects at least one of the sound output targets (); a distance calculation unit that calculates a distance to the sound output target (); and a control unit that controls the oscillation device to adjust sound pressure of the sound wave. The oscillation device outputs an ultrasonic wave for a sensor and a sound wave for sound reproduction. The distance calculation unit calculates a distance between the oscillation device and an object to be selected () by detecting the ultrasonic wave for a sensor reflected from the object to be selected () selected by the selection unit. The control unit adjusts the magnitude of the output of the sound wave for sound reproduction on the basis of the calculated distance between the oscillation device and the object to be selected ().

Electronic device

An input apparatus (for example, a mobile terminal apparatus ()) includes a display unit () that displays a plurality of operation position displays (for example, operation position displays (to)); and a detection unit that contactlessly detects an operation which corresponds to an operation position set in a specific space of a front of the input apparatus in correspondence to each of the plurality of operation position displays. The detection unit includes a first piezoelectric element (an oscillation piezoelectric element ()) that oscillates ultrasound toward the front space of the input apparatus; a second piezoelectric element (a reception piezoelectric element ()) that detects the ultrasound which is oscillated by the first piezoelectric element; and a determination unit that determines whether or not an operation is performed on a certain operation position based on a result of detection performed by the second piezoelectric element.

Input apparatus

An electronic device includes: a plurality of oscillators () that output modulation waves of a parametric speaker; a display unit () that displays a plurality of contents at the same time; a recognition unit that recognizes the locations of a plurality of users; and a control unit that controls the oscillators () so as to reproduce sounds corresponding to the contents. The control unit controls the oscillators () so as to reproduce the sound corresponding to the content selected by each user, toward the location of each of the plurality of users which is recognized by the recognition unit.

A portable terminal device () includes a plurality of operation units (for example, a plurality of operation keys ()) that are operated by a user; a detection unit that detects which operation unit of the plurality of operation units is operated; and a directional speaker (for example, a parametric speaker ()). The portable terminal device () further includes an audio control unit that controls the directional speaker so that an audio image is formed at a position corresponding to the position of the operation unit operated by the user among the plurality of operation units.

Audio output device

A medium transport apparatus includes: a transport unit transporting a belt-shaped medium having plural marks formed in line at predetermined intervals in a transport direction; a detection unit detecting the marks on the medium; and a determining unit determining that a splice exists at a position on the medium if an interval of the marks detected from the medium by the detection unit differs from the predetermined intervals, the position being identified by the marks having the interval different from the predetermined intervals.

Medium transport apparatus, image forming apparatus, method for determining splice on medium and computer readable medium

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Tokyo, Japan

Hiroyuki Aoki